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Dry-Type Transformer for Renewable Energy Systems(images 1)

Dry-Type Transformer for Renewable Energy Systems

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Dry-Type Transformer for Renewable Energy Systems(images 4)

Windings adopt a segmented structural design using high thermal conductivity, flame-retardant epoxy resin as the core insulating material. The windings are integrally formed through vacuum pressure impregnation or casting processes.

Dry-Type Transformer for Renewable Energy Systems(images 5)

The product resists moisture, dust, salt spray, and chemical gas corrosion, making it suitable for installation in harsh environmental conditions.

Dry-Type Transformer for Renewable Energy Systems(images 6)

Oil-free and pollution-free, with no special installation location requirements and higher environmental performance.

Dry-Type Transformer for Renewable Energy Systems(images 7)

Cast windings offer high mechanical strength and can withstand short-circuit electromagnetic forces.

Dry-Type Transformer for Renewable Energy Systems(images 8)

Insulation class is typically Class F or Class H, providing excellent heat resistance and strong overload capability.

Dry-Type Transformer for Renewable Energy Systems(images 9)

Compact structure with clear design considerations, facilitating installation in containerized enclosures.

Dry-Type Transformer for Renewable Energy Systems(images 10)

Windings adopt a segmented structural design using high thermal conductivity, flame-retardant epoxy resin as the core insulating material. The windings are integrally formed through vacuum pressure impregnation or casting processes.

Dry-Type Transformer for Renewable Energy Systems(images 11)

The product resists moisture, dust, salt spray, and chemical gas corrosion, making it suitable for installation in harsh environmental conditions.

Dry-Type Transformer for Renewable Energy Systems(images 12)

Oil-free and pollution-free, with no special installation location requirements and higher environmental performance.

Dry-Type Transformer for Renewable Energy Systems(images 13)

Cast windings offer high mechanical strength and can withstand short-circuit electromagnetic forces.

Dry-Type Transformer for Renewable Energy Systems(images 14)

Insulation class is typically Class F or Class H, providing excellent heat resistance and strong overload capability.

Dry-Type Transformer for Renewable Energy Systems(images 15)

Compact structure with clear design considerations, facilitating installation in containerized enclosures.

InstallationIndoor/Outdoor(with enclosure)
Rated CapacityAs required
Primary VoltageUp to 36kV
Secondary VoltageAs required
Frequency50 / 60 Hz
Tap RangeAs required
Impedance VoltageAs required
Insulation ClassF (155°C) / H (180°C)
Cooling MethodAN / AF
Vector GroupAs required
Winding MaterialCopper / Aluminium
Degree of ProtectionIP00–IP56
StandardsIEC / IEEE
Dry-Type Transformer for Renewable Energy Systems(images 16)
Dry-Type Transformer for Renewable Energy Systems(images 17)
PRE-SALES SUPPORT
PRE-SALES SUPPORT
Dry-Type Transformer for Renewable Energy Systems(images 18)
Dry-Type Transformer for Renewable Energy Systems(images 19)
Dry-Type Transformer for Renewable Energy Systems(images 20)
Dry-Type Transformer for Renewable Energy Systems(images 21)
Dry-Type Transformer for Renewable Energy Systems(images 22)
Dry-Type Transformer for Renewable Energy Systems(images 23)
Dry-Type Transformer for Renewable Energy Systems(images 24)
Dry-Type Transformer for Renewable Energy Systems(images 25)
Dry-Type Transformer for Renewable Energy Systems(images 26)
Dry-Type Transformer for Renewable Energy Systems(images 27)
Dry-Type Transformer for Renewable Energy Systems(images 28)
Dry-Type Transformer for Renewable Energy Systems(images 29)
Dry-Type Transformer for Renewable Energy Systems(images 30)
Dry-Type Transformer for Renewable Energy Systems(images 31)